RatedOutputW—700
Air CirculationTypeCross-flow FanPropellerFan
MaterialASG20k1P.P
MotorTypeTransistor (8-poles)Induction(6-poles)
InputW—65.9
Rate OutputW3029
Fan SpeedLo (Cool/Heat)rpm910/1,080—
Me (Cool/Heat)rpm1,165/1,290—
Hi (Cool/Heat)rpm1,420/1,500830
SHi (Cool/Heat)rpm1,460/1,540—
Heat ExchangerDescriptionEvaporatorCondenser
Tube materialCopperCopper
Fin materialAluminium(PreCoat)Aluminium
Fin TypeSlitFinCorrugatedFin
Row / Stage(Platefinconfiguration,forceddraft)
2/152/24
FPI2117
Size (W × H × L)mm610×315×25.4718.4
Refrigerant Control Device—CapillaryTube
Refrigeration Oil(cm3)—RB68A(320)
Refrigerant (R410A)g(oz)—980(34.6)
ThermostatElectronicControl—
Protection DeviceElectronicControlElectronicControl
Lengthmm—C1,C2;1,120,C3;370
Capillary TubeFlow Ratel/min—C1,C2;4.9,C3;19.6
Inner Diametermm—C1,C2;1.2,C3;1.7
Air FilterMaterial
Style
Fan Motor CapacitorµF,VAC—2.0µF,440VAC
Compressor CapacitorµF,VAC—65µF,350VAC
P.P.
Honeycomb
×504×36.4
689.8
—
•
Specifications are subjecttochangewithoutnoticeforfurtherimprovement.
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4 Dimensions
4.1. Indoor Unit & Remote Control
4.1.1. CS-E9DKEW CS-E12DKEW
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4.2. Outdoor Unit
4.2.1. CU-E9DKE CU-E12DKE
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5 Refrigeration Cycle Diagram
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6 Block Diagram
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7 Wiring Diagram
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8 Operation Details
8.1. Basic Function
Inverter control, which equipped with a microcomputer in determining the most suitable operating mode as timepasses,
automatically adjusts output power for maximum comfort always. In order to achieve the suitable operatingmode,the
microcomputer maintains the set temperature by measuring the temperature of the environment and performingtemperature
shifting. The compressor at outdoor unit is operating following the frequency instructed by the microcomputeratindoorunitthat
judging the condition according to internal setting temperature and intake air temperature.
8.1.1. Internal Setting Temperature
Once the operation starts, remote control setting temperature will be taken as base valuefortemperatureshiftingprocesses.
These shifting processes are depending on the air conditioner settings and the operationenvironment.Thefinalshiftedvalue
will be used as internal setting temperature and it is updated continuously whenevertheelectricalpowerissuppliedtotheunit.
• To offset the absolute gap between detection temperature with actual room temperature.
• The heat exchanger unit’s temperature is different based on operation mode, it become the action operationmode
value.
Actual operation modeTarget room temperature offset value (dGetaDst)
Cooling(1)
Heating(2)
Dry(0)
2. Room temperature shift value (dGeta)
• When compressor ON/OFF, correction of detected room temperature by shift valueduringdefrostetc.
i) Initial value when operation starts, or changin g the actual operation mode.
Set the offset value at each operation mode. However, in order to improve theheatingstartupefficiency,theoffsetvalue
will be changed based on the gap between setting temperature and roomtemperature.
Actual operation modeGap between setting temperature androom
temperature
Cool—(0)
Heat(Operation start set temp. -roomtemp)<4°C(4)
(Operation start settemp.)4°C(4)
Dry—(0)
Roomtemperatureoffsetvalue
(dGeta)
ii) Updating during operation
During operation, it will compare with the targetroomtemperatureoffsetvalueatspecificperiod,thentheroomtemperature
will be updated.
Actual operation modeRoomtemperaturezoneUpdatingperiod(sec.)
1. After shifting to relative control, (intake-setting) is every 60 seconds, A tap is adjusted according to the domain and frequency
changes relatively to present condition.
2. Intake-setting to other domains by load sudden change (remote control setting, open air introduction, etc.). Whenitmoves,it
has the following renewal of data, an addition and subtraction tap is switched.
3. When the load change was further carried out and suction-setup separates the domain of relative control,itgoestotheclause
of initial frequency and operation frequency is determined.
8.1.2.2. The frequencydeterminationmethod(Heatingoperationcontrol)
Then, a directedchangedpartchangesfrequencytothepresentfrequency.
Changeoffrequencymaybe1tap=1Hz.
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8.1.2.2.2. Initial frequency determination
After a starting control end, initial frequency (absolute value) is determined and is immediately shift.
However, the domain of Fhmax is judged instantly.
8.1.2.2.3. Change frequencydetermination
When directions of Fhmax determinedfrommentionedinitialfrequency,(intake-setting)relativitycontrol.Fhmaxcontinueduntil(If
other directions came byprotectioncontrol,priorityisgiventhere)roomtemperatureisreached,itshiftstorelativecontrolafter
moving to change frequency.
The following operationdetermineschangefrequency.
The Hzkirikae=presentconditionfrequency*Inclines(calculation)
1. When intake-setting remains for 30 seconds in a domain after shifting to relative control, a tap is adjusted accordingtothe
domain and frequency changes relatively to the present conditio n.
2. A suction-setup to other domains by load sudden change (remote control setting change, open air introduction,etc.).
When it moves, addition or subtraction tap is changed at the time of the following renewal of data.
3. When the load change was furthermore carried out and a suction-setup separates from the domain of relativecontrol,itgoes
to the clause of initial frequency and operation frequency is determined.
1. When (suction-setup) remains in a domain for 30 seconds, after shifting to relative control, a tap is adjusted according to the
domain and frequency changes relatively to the present condition.
2. A suction-setup is to other domains by load sudden change (remote control setting, open air introduction, etc.). When itmoves,
an addition-and-subtraction tap is changed from the time of the following renewal of data.
8.1.3. Cooling Operation
8.1.3.1. Thermostat control
• Compressor is OFF when Intake AirTemperature-InternalSettingTemperature<-1.5°C.
• Compressor is ON after waitingfor3minutes,iftheIntakeAirTemperature-InternalSettingTemperature>CompressorOFF
point.
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8.1.4. Soft Dry Operation
8.1.4.1. Thermostat control
• Compressor is OFF when Intake Air Temperature - Internal Setting Temperature < -2.0°C.
• Compressor is ON after waiting for 3 minutes, if the Intake Air Temperature - Internal Setting Temperature > CompressorOFF
point.
8.1.5. Heating Operation
8.1.5.1. Thermostat control
• Compressor is OFF when Intake Air Temperature - InternalSettingTemperature>+2.0°C.
• Compressor is ON after waiting for 3 minutes, if theIntakeAirTemperature-InternalSettingTemperature<CompressorOFF
Values of T1, T2, and T3 depend on remote control setting temperature, as shown in below table. After the adjustment of T1, T2
and T3 values, the operation mode for that particular environment and remote control setting is judged and performed, based on
the above operation mode chart, every 30 minutes.
The operation mode chart for this example is as shown in below figure andtheoperationmodetobeperformedwilldependon
indoor intake air temperature and outdoor air temperature at the time whenthejudgmentismade.
b. Iffeedbacknumberofrotationsexceeded#2550r/minorwhenlessthan#50r/min.
Control:Fansstop
Return:Restartafter5seconds
*Itwillnotdetecttheoutofrhythmconditionwithin5sforphasecontrolmotor(PWM motor is when duty=0) after start.
Afanstopswhencondition(1)and(2)happenwithin25.0secondsafterfanstarting, and if this happens for continuously
7times,itwillnotretry.
→FMlockprocessing
4. RestartProhibitionControl
Restartisprohibitedwithin5sforphasecontrolmotor(PWMmotoris when duty=0) after fan stop (except re-ON the power
supply).
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D. Deodorizing Control
i. Control conditio n
Control at cooling/dry operation and auto fan speed.
No Deodorizing Control is performed during ON timer standby operation and during Anti-freezing control prevention.
ii. Operation
The odor status is arranged as below and it is shifted as follow.
* When COMP is ON1→2→3
(Shift to 4 when COMP is OFF)
* When COMP is OFF4→5→6→7→6
(Shift to 1 when COMP is ON)
* Start from 4 if the Thermostat is OFF during the start operation.
Odor Status12345676.7.6...1
Status Shift
according to COMP
Status Shift
according
to time (s)Dry zoneON
Fan Speed
Cooling
zone
Cooling
zone
Dry zoneSLo
4050—3090209020.90.20...
OFFSSLo
ONOFFON
Auto Fan Speed
SSLoOFFSSLoOFFSSLo.OFF...
←→
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8.1.8. Outdoor FanMotorOperation
Outdoor fan motorisoperatedwithonefanspeedonly.Itstartswhencompressorstartsoperationanditstops30secondsafter
compressor stopsoperation.
8.1.9. AirflowDirection
1.Therearetwotypesofairflow,verticalairflow(directedbyhorizontalvane)andhorizontalairflow(directed by vertical vanes).
2. Controlofairflowdirectioncanbeautomatic(anglesofdirectionisdeterminedbyoperationmode,heat exchanger temperature
andintakeairtemperature)andmanual(anglesofdirectioncanbeadjustedusingremotecontrol).
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8.1.9.1. Vertical Airflow
Operation ModeAirflow DirectionVane Angle (°)
12345
HeatingAuto with Heat ExchangerAUpward fix3
TemperatureBDownward fix64
CUpward fix3
DDownward fix3
Manual317334963
Cooling, Soft Dry and IonAuto8~36
Manual815223036
Mode Judgment in AutoAuto8
Manual815223036
1. Automatic vertical airflow direction can be set using remote control; the vane swings upanddownwithintheanglesasstated
above. For heating mode operation, the angle of the vane depends on the indoorheatexchangertemperatureasFigure1
below. When the air conditioner is stopped using remote control, the vane will shifttocloseposition.
2. Manual vertical airflow direction can be set using remote control; the anglesofthevaneareasstatedaboveandthepositions
of the vane are as Figure 2 below. When the air conditioner is stopped usingremotecontrol,thevanewillshifttocloseposition.
8.1.9.2. Horizontal Airflow
1. Automatic horizontal airflowdirectioncanbesetusingremotecontrol;thevaneswingsleftandrightwithintheanglesasstated
below. For heating modeoperation,theangleofthevanedependsontheindoorheatexchangertemperatureasFigure1
below.
OperationModeVaneAngle(°)
Heating,withheatexchangertemperatureA65~115
B90
Cooling,SoftDryandIon65~115
2. Manualhorizontalairflowdirectioncanbesetusingremotecontrol;theanglesofthevane are as stated below and the positions
ofthevaneareasFigure2above.
Pattern12345
AirflowDirection
PatternsatRemoteControl
VaneAngle(°)906578102115
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8.1.10. Quiet operation (Cooling Mode/Cooling area of Dry Mode)
A. Purpose
To provide quiet cooling operation compare to normal operation.
B. Control condition
a. Quiet operation start condition
• When “quiet” button at remote control is pressed.
Quiet LED illuminates.
b. Quiet operation stop condition
1. When one of the following conditions is satisfied, quiet operation stops:
a. Powerful button is pressed.
b. Stop by OFF/ON switch.
c. Timer “off” activates.
d. Quiet button is pressed again.
2. When quiet operation is stopped, operation is shifted to normal operationwithprevioussetting.
3. When fan speed is changed, quiet operation is shifted to quietoperationofthenewfanspeed.
4. When operation mode is changed, quiet operation is shiftedtoquietoperationofthenewmode.
5. During quiet operation, if timer “on” activates, quiet operationmaintains.
6. After off, when on back, quiet operation is not memorised.
C. Control contents
1. Fan speed is changed from normal settingtoquietsettingofrespectivefanspeed.
This is to reduce sound of Hi, Me, Lofor3dB.
2. Fan speed for quiet operation is-1stepfromsettingfanspeed.
8.1.10.1. Quiet operation(Heating)
A. Purpose
To provide quietheatingoperationcomparetonormaloperation.